This short letter proposes more consolidated explicit solutions for the forces and torques acting on typical rover wheels, that can be used as a method to determine their average mobility characteristics in planetary soils. The closed loop solutions stand in one of the verified methods, but at difference of the previous, observables are decoupled requiring a less amount of physical parameters to measure. As a result, we show that with knowledge of terrain properties, wheel driving performance rely in a single observable only. Because of their generality, the formulated equations established here can have further implications in autonomy and control of rovers or planetary soil characterization
Abstract — Future planetary rovers are expected to probe over steep sandy slopes, such as crater rim...
This thesis outlines a systematic study of different mobility/suspension systems that have been prop...
Proceedings 01 2004 IEEElRSJ International Conference on lntelllgent Robots and Systems September 28...
This paper presents analytical models to investigate the steering maneuvers of planetary exploration...
Based on insufficient studies of the tractive performance of a planetary rover's rigid wheels in sof...
This paper presents a comprehensive wheel model that can quantitatively evaluate traction performanc...
Wheeled mobile robots are popular in planetary exploration and other challenging applicati...
The prediction of vehicle mobility is an important aspect of vehicle locomotion system design. Mathe...
The prediction of vehicle mobility is an important aspect of vehicle locomotion system design. Mathe...
In order to lead the cost-intensive mission of a planetary exploration rover to a success, tremendo...
Rovers on Mars or Moon for planetary exploration are obtainig increased importance within the spacef...
This paper describes slope traversability analysis for a planetary exploration rover based on a terr...
The authors of this paper build on many years of experience in planetary rover locomotion system des...
All robotic rovers for planetary exploration and the vehicles used to carry astronauts on the surfac...
All robotic rovers for planetary exploration and the vehicles used to carry astronauts on the surfac...
Abstract — Future planetary rovers are expected to probe over steep sandy slopes, such as crater rim...
This thesis outlines a systematic study of different mobility/suspension systems that have been prop...
Proceedings 01 2004 IEEElRSJ International Conference on lntelllgent Robots and Systems September 28...
This paper presents analytical models to investigate the steering maneuvers of planetary exploration...
Based on insufficient studies of the tractive performance of a planetary rover's rigid wheels in sof...
This paper presents a comprehensive wheel model that can quantitatively evaluate traction performanc...
Wheeled mobile robots are popular in planetary exploration and other challenging applicati...
The prediction of vehicle mobility is an important aspect of vehicle locomotion system design. Mathe...
The prediction of vehicle mobility is an important aspect of vehicle locomotion system design. Mathe...
In order to lead the cost-intensive mission of a planetary exploration rover to a success, tremendo...
Rovers on Mars or Moon for planetary exploration are obtainig increased importance within the spacef...
This paper describes slope traversability analysis for a planetary exploration rover based on a terr...
The authors of this paper build on many years of experience in planetary rover locomotion system des...
All robotic rovers for planetary exploration and the vehicles used to carry astronauts on the surfac...
All robotic rovers for planetary exploration and the vehicles used to carry astronauts on the surfac...
Abstract — Future planetary rovers are expected to probe over steep sandy slopes, such as crater rim...
This thesis outlines a systematic study of different mobility/suspension systems that have been prop...
Proceedings 01 2004 IEEElRSJ International Conference on lntelllgent Robots and Systems September 28...